Accurate long-range forecasting of COVID-19 mortality in the USA

Abstract The need for improved models that can accurately predict COVID-19 dynamics is vital to managing the pandemic and its consequences. We use machine learning techniques to design an adaptive learner that, based on epidemiological data available at any given time, produces a model that accurate...

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Autores principales: Pouria Ramazi, Arezoo Haratian, Maryam Meghdadi, Arash Mari Oriyad, Mark A. Lewis, Zeinab Maleki, Roberto Vega, Hao Wang, David S. Wishart, Russell Greiner
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Lenguaje:EN
Publicado: Nature Portfolio 2021
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Acceso en línea:https://doaj.org/article/ac72519b371340d4aede2c0064a6cd98
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spelling oai:doaj.org-article:ac72519b371340d4aede2c0064a6cd982021-12-02T15:23:07ZAccurate long-range forecasting of COVID-19 mortality in the USA10.1038/s41598-021-91365-22045-2322https://doaj.org/article/ac72519b371340d4aede2c0064a6cd982021-07-01T00:00:00Zhttps://doi.org/10.1038/s41598-021-91365-2https://doaj.org/toc/2045-2322Abstract The need for improved models that can accurately predict COVID-19 dynamics is vital to managing the pandemic and its consequences. We use machine learning techniques to design an adaptive learner that, based on epidemiological data available at any given time, produces a model that accurately forecasts the number of reported COVID-19 deaths and cases in the United States, up to 10 weeks into the future with a mean absolute percentage error of 9%. In addition to being the most accurate long-range COVID predictor so far developed, it captures the observed periodicity in daily reported numbers. Its effectiveness is based on three design features: (1) producing different model parameters to predict the number of COVID deaths (and cases) from each time and for a given number of weeks into the future, (2) systematically searching over the available covariates and their historical values to find an effective combination, and (3) training the model using “last-fold partitioning”, where each proposed model is validated on only the last instance of the training dataset, rather than being cross-validated. Assessments against many other published COVID predictors show that this predictor is 19–48% more accurate.Pouria RamaziArezoo HaratianMaryam MeghdadiArash Mari OriyadMark A. LewisZeinab MalekiRoberto VegaHao WangDavid S. WishartRussell GreinerNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 11, Iss 1, Pp 1-11 (2021)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Pouria Ramazi
Arezoo Haratian
Maryam Meghdadi
Arash Mari Oriyad
Mark A. Lewis
Zeinab Maleki
Roberto Vega
Hao Wang
David S. Wishart
Russell Greiner
Accurate long-range forecasting of COVID-19 mortality in the USA
description Abstract The need for improved models that can accurately predict COVID-19 dynamics is vital to managing the pandemic and its consequences. We use machine learning techniques to design an adaptive learner that, based on epidemiological data available at any given time, produces a model that accurately forecasts the number of reported COVID-19 deaths and cases in the United States, up to 10 weeks into the future with a mean absolute percentage error of 9%. In addition to being the most accurate long-range COVID predictor so far developed, it captures the observed periodicity in daily reported numbers. Its effectiveness is based on three design features: (1) producing different model parameters to predict the number of COVID deaths (and cases) from each time and for a given number of weeks into the future, (2) systematically searching over the available covariates and their historical values to find an effective combination, and (3) training the model using “last-fold partitioning”, where each proposed model is validated on only the last instance of the training dataset, rather than being cross-validated. Assessments against many other published COVID predictors show that this predictor is 19–48% more accurate.
format article
author Pouria Ramazi
Arezoo Haratian
Maryam Meghdadi
Arash Mari Oriyad
Mark A. Lewis
Zeinab Maleki
Roberto Vega
Hao Wang
David S. Wishart
Russell Greiner
author_facet Pouria Ramazi
Arezoo Haratian
Maryam Meghdadi
Arash Mari Oriyad
Mark A. Lewis
Zeinab Maleki
Roberto Vega
Hao Wang
David S. Wishart
Russell Greiner
author_sort Pouria Ramazi
title Accurate long-range forecasting of COVID-19 mortality in the USA
title_short Accurate long-range forecasting of COVID-19 mortality in the USA
title_full Accurate long-range forecasting of COVID-19 mortality in the USA
title_fullStr Accurate long-range forecasting of COVID-19 mortality in the USA
title_full_unstemmed Accurate long-range forecasting of COVID-19 mortality in the USA
title_sort accurate long-range forecasting of covid-19 mortality in the usa
publisher Nature Portfolio
publishDate 2021
url https://doaj.org/article/ac72519b371340d4aede2c0064a6cd98
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